W2VS - SIGNAL TRANSMITTER (2024)

Functions & Features
• Converts DC input from a sensor into a standard process signal
• Fast response type available
Typical Applications
• Isolation between control room and field instrumentation

MODEL: W2VS–[1][2][3]-[4][5]

ORDERING INFORMATION
• Code number: W2VS-[1][2][3]-[4][5]
Specify a code from below for each of [1] through [5].
(e.g. W2VS-6A6-M2/K/CE/Q)
• Special input and output ranges (For codes Z & 0)
• Specify the specification for option code /Q
(e.g. /C01/V01)
Note: When the user requires a current and a voltage output, specify the current to be the Output 1 which allows a greater load.

[1] INPUT
Current
A: 4– 20 mA DC (Input resistance 250 Ω)
A1: 4– 20 mA DC (Input resistance 50 Ω)
B: 2– 10 mA DC (Input resistance 500 Ω)
C: 1– 5 mA DC (Input resistance 1000 Ω)
D: 0– 20 mA DC (Input resistance 50 Ω)
E: 0– 16 mA DC (Input resistance 62.5 Ω)
F: 0– 10 mA DC (Input resistance 100 Ω)
G: 0– 1 mA DC (Input resistance 1000 Ω)
H: 10– 50 mA DC (Input resistance 100 Ω)
J: 0– 10 μA DC (Input resistance 1000 Ω)
K: 0– 100 μA DC (Input resistance 1000 Ω)
GW: -1– +1 mA DC (Input resistance 1000 Ω)
FW: -10– +10 mA DC (Input resistance 100 Ω)
Z: Specify current (See INPUT SPECIFICATIONS)
Voltage
1: 0– 10 mV DC (Input resistance 10 kΩ min.)
15: 0– 50 mV DC (Input resistance 10 kΩ min.)
16: 0– 60 mV DC (Input resistance 10 kΩ min.)
2: 0– 100 mV DC (Input resistance 100 kΩ min.)
3: 0– 1 V DC (Input resistance 1 MΩ min.)
4: 0– 10 V DC (Input resistance 1 MΩ min.)
5: 0– 5 V DC (Input resistance 1 MΩ min.)
6: 1– 5 V DC (Input resistance 1 MΩ min.)
4W: -10– +10 V DC (Input resistance 1 MΩ min.)
5W: -5– +5 V DC (Input resistance 1 MΩ min.)
0: Specify voltage (See INPUT SPECIFICATIONS)

[2] OUTPUT 1
Current
A: 4– 20 mA DC (Load resistance 750 Ω max.)
B: 2– 10 mA DC (Load resistance 1500 Ω max.)
C: 1– 5 mA DC (Load resistance 3000 Ω max.)
D: 0– 20 mA DC (Load resistance 750 Ω max.)
E: 0– 16 mA DC (Load resistance 900 Ω max.)
F: 0– 10 mA DC (Load resistance 1500 Ω max.)
G: 0– 1 mA DC (Load resistance 15 kΩ max.)
Z: Specify current (See OUTPUT SPECIFICATIONS)
Voltage
1: 0– 10 mV DC (Load resistance 10 kΩ min.)
2: 0– 100 mV DC (Load resistance 100 kΩ min.)
3: 0– 1 V DC (Load resistance 1000 Ω min.)
4: 0– 10 V DC (Load resistance 10 kΩ min.)
5: 0– 5 V DC (Load resistance 5000 Ω min.)
6: 1– 5 V DC (Load resistance 5000 Ω min.)
4W: -10– +10 V DC (Load resistance 10 kΩ min.)
5W: -5– +5 V DC (Load resistance 5000 Ω min.)
0: Specify voltage (See OUTPUT SPECIFICATIONS)

[3] OUTPUT 2
Y: None
Current
A: 4 – 20 mA DC (Load resistance 350 Ω max.)
B: 2 – 10 mA DC (Load resistance700 Ω max.)
C: 1 – 5 mA DC (Load resistance 1400 Ω max.)
D: 0 – 20 mA DC (Load resistance 350 Ω max.)
E: 0 – 16 mA DC(Load resistance 430 Ω max.)
F: 0 – 10 mA DC (Load resistance 700 Ω max.)
G: 0 – 1 mA DC (Load resistance 7000 Ω max.)
Z: Specify current (See OUTPUT SPECIFICATIONS)
Voltage
Same range availability as Output 1

[4] POWER INPUT
AC Power
M2: 100– 240 V AC (Operational voltage range 85– 264 V,
47– 66Hz)
(90– 264 V for UL)
DC Power
R: 24 V DC
(Operational voltage range 24 V ±10 %, ripple 10 %p-p max.)
R2: 11– 27 V DC
(Operational voltage range 11– 27 V, ripple 10 %p-p max.)
(Select ‘/N’for ‘Standards & Approvals’ code.)
P: 110 V DC
(Operational voltage range 85– 150 V, ripple 10 %p-p max.)
(110 V ±10 % for UL)

[5] OPTIONS (multiple selections)
Response Time (0 – 90 %)
blank: Standard (≤ 0.5 sec.)
/K: Fast Response (Approx. 25 msec.)
Standards & Approvals (must be specified)
/N: Without CE or UL
/CE: CE marking
/UL: UL approval, CE marking
Other Options
blank: none
/Q:Optionother than the above (specify the specification)

SPECIFICATIONS OF OPTION: Q (multiple selections)
COATING (For the detail, refer to M-System's web site.)
/C01: Silicone coating
/C02:Polyurethane coating
/C03:Rubber coating (UL not available)
ADJUSTMENT
/V01: Multi-turn fine adjustment (UL not available)
TERMINAL SCREW MATERIAL
/S01: Stainless steel (UL not available)

GENERAL SPECIFICATIONS
Construction: Plug-in
Connection: M3 screw terminals (torque 0.8 N·m)
Screw terminal: Chromated steel (standard) or stainless steel
Housing material: Flame-resistant resin (black)
Isolation: Input to output 1 to output 2 to power
Overrange output: Approx. -10 to +120 % at 1 – 5 V
Zero adjustment: -5 to +5 % (front)
Span adjustment: 95 to 105 % (front)
Adjustable individually for each output 1 and output 2.

INPUT SPECIFICATIONS
■DC Current:
Shunt resistor attached to the input terminals (0.5 W)
Specify input resistance value for code Z.
■DC Voltage: -300 – +300 V DC
Minimum span: 3 mV
Offset: Max. 1.5 times span
Input resistance
Span 3 – 10 mV : ≥10 kΩ
Span 10 – 100 mV : ≥ 10 kΩ
Span 0.1 – 1 V : ≥ 100 kΩ
Span ≥ 1 V : ≥ 1 MΩ

OUTPUT SPECIFICATIONS
■DC Current: 0 – 20 mA DC
Minimum span: 1 mA
Offset: Max. 1.5 times span
Load resistance: Output drive 15 V max. for Output 1;
7 V max. for Output 2
■DC Voltage: -10 – +12 V DC (up to 10 V for Output 2)
Minimum span: 5 mV
Offset: Max. 1.5 times span
Load resistance: Output drive 1 mA max.; at ≥ 0.5 V

INSTALLATION
Power Consumption
•AC:
Approx.4 VA at 100 V
Approx. 5 VA at 200 V
Approx. 6 VA at 240 V
•DC: Approx. 3 W
Operating temperature: -5 to +55°C (23 to 131°F)
Operating humidity: 30 to 90 %RH (non-condensing)
Mounting: Surface or DIN rail
Weight:200 g (0.44 lb)

PERFORMANCE in percentage of span
Accuracy: ±0.1 %
Temp. coefficient: ±0.015 %/°C (±0.008 %/°F)
Line voltage effect: ±0.1 % over voltage range
Insulation resistance: ≥ 100 MΩ with 500 V DC
Dielectric strength: 2000 V AC @1 minute (input to output
1 to output 2 to power to ground)

STANDARDS & APPROVALS
EU conformity:
EMC Directive
EMI EN 61000-6-4
EMS EN 61000-6-2
Low Voltage Directive
EN 61010-1
Measurement Category II (input)
Installation Category II (power)
Pollution Degree 2
Input or output 1 or output 2 to power input:
Reinforced insulation (300 V)
Inputto output 1to output 2:Basic insulation (300 V)
RoHS Directive
EN 50581
Approval:
UL/C-UL nonincendive Class I, Division 2,
Groups A, B, C, and D
(ANSI/ISA-12.12.01, CAN/CSA-C22.2 No.213)
UL/C-UL general safety requirements
(UL 61010-1, CAN/CSA-C22.2 No.61010-1)

M-System Vietnam

W2VS - SIGNAL TRANSMITTER (2024)

FAQs

How can I increase the signal strength of my transmitter? ›

In most cases, you use transistors (and/or tubes) to amplify the RF signal from the transmitter. Sometimes, the least expensive way to increase range is to use a bigger antenna, a higher antenna, a more efficient antenna, or a directional antenna. What frequency are you transmitting? What is your present power output?

What is the output signal of a transmitter? ›

As mentioned earlier, the electrical transmitter output signal is usually a range of voltage (1 to 5V) or current (4 to 20 mA). In process control, it is understood and goes without saying that the transmitter output range represents the 0 to 100% of the sensed physical variable.

Why is my signal not strong enough? ›

Adverse weather, interference from building materials or terrain, distance from your nearest cell tower, or network overload can all contribute to poor signal.

How do I get full signal strength? ›

If you are indeed eager to look for ways on how to improve signal strength on mobile, then some of these might help:
  1. Update your phone's software. ...
  2. Update the apps on your phone. ...
  3. Turn off other services. ...
  4. Restart your device or turn on airplane mode. ...
  5. Change your network operator. ...
  6. Check your phone for damage.
Mar 6, 2024

Which device amplifies the signal? ›

An amplifier is an electronic device that increases the voltage, current, or power of a signal. Amplifiers are used in wireless communications and broadcasting, and in audio equipment of all kinds.

What is the signal strength of a transmitter? ›

In telecommunications, particularly in radio frequency engineering, signal strength refers to the transmitter power output as received by a reference antenna at a distance from the transmitting antenna. High-powered transmissions, such as those used in broadcasting, are expressed in dB-millivolts per metre (dBmV/m).

Why is 4/20 mA used instead of 0/20mA? ›

Further, in a circuit where 0-20 mA is used, it would be very hard to detect and distinguish low ranges. A 4-20 mA circuit is much easier to work with because there is in fact a consistent flow of current that can be detected and used to reliably transmit process information3.

How can I make my signal stronger? ›

Make Sure Your Phone is in Peak Working Condition
  1. Update your software. ...
  2. Turn off any services you're not currently using. ...
  3. Change your Voice and Data settings. ...
  4. Turn airplane mode on and off. ...
  5. Reset your network settings. ...
  6. Manually re-select the network operator. ...
  7. Have your phone checked for damage.
Jun 11, 2024

How do I increase the range of a transmitter? ›

Wireless transmission distance is mainly determined by the sensitivity of the receiver and the power of the transmitter. It can be improved by directly increasing the transmitting power or receiving sensitivity.

How do you amplify a radio transmitter? ›

If you need to enhance the radio signal in a certain direction, then choose an FM transmitting antenna with high gain for your radio station. If you need to enhance FM radio signals in all directions, you need splitters and several directional antennas that transmit FM radio signals in different directions.

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